Biomaterials are engineered to improve the safety and efficacy of current cancer immunotherapies.

Biomaterials are engineered to improve the safety and efficacy of current cancer immunotherapies.
Science fact catches up with science fiction: by exploiting magnetic levitation, biomanufacturing – creating living 3D structures – is now possible in zero gravity. Utkan Demirci discusses how this works.
Biophotovoltaic devices by incorporation of oriented Photosystem I via phage display.
Researchers design a bio-inspired batoid robot from non-toxic hydrogels operated with Au microelectrodes.
In their review in BioEssays, Klaske Schukken and Floris Foijer discuss the different concepts and consequences of chromosomal instability and aneuploidy.
Researchers develop a new anticancer agent composed of magnesium shallow-doped iron oxide superparamagnetic nanoparticles (SPNPs). The magnetic fluid hyperthermia (MNFH) agent is highly biocompatible and is able to completely eradicate Hep3B-induced tumors.
New designs were fabricated via multimaterial 3D printing and potential applications of sequential particle release mechanisms were systematically explored.
A Macromolecular Rapid Communications special issue, Polymer Materials and Engineering Research at Sichuan University, highlights recent research developments in novel polymer processing technologies; polymer nanocomposites; multicomponent polymer systems and solution thermodynamics; macromolecular synthetic methodology; and functional polymers for energy, sustainability, the environment, and biomedical applications.
For nearly 35 years, CD4 T-cells and their immunephenotyping and enumeration were the focal points of HIV/AIDS research.
A team of Chinese researchers demonstrated an optofluidic strategy, by implanting the microfluidic technique with a large-tapered-angle fiber probe (LTAP), to organize and transport a cell chain in a noncontact and noninvasive manner.